SchCb schCb[SCH_MAX_INST];
void SchFillCfmPst(Pst *reqPst,Pst *cfmPst,RgMngmt *cfm);
-
/* local defines */
SchCellCfgCfmFunc SchCellCfgCfmOpts[] =
{
RgMngmt cfm;
Pst cfmPst;
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : GENERAL_CFG_REQ\n");
+#endif
+
if(pst->dstInst < SCH_INST_START)
{
DU_LOG("\nERROR --> SCH : Invalid inst ID");
cfm.cfm.reason = reason;
SchSendCfgCfm(&cfmPst, &cfm);
- /* SPutSBuf(pst->region, pst->pool, (Data *)cfg, sizeof(RgMngmt)); */
+ /* SCH_FREE(pst->region, pst->pool, (Data *)cfg, sizeof(RgMngmt)); */
return ROK;
}/*-- SchProcGenCfgReq --*/
* a cell.
*
* @param[in] Pst *pst
- * @param[in] SlotIndInfo *slotInd
+ * @param[in] SlotTimingInfo *slotInd
* @return S16
* -# ROK
* -# RFAILED
**/
-uint8_t MacSchSlotInd(Pst *pst, SlotIndInfo *slotInd)
+uint8_t MacSchSlotInd(Pst *pst, SlotTimingInfo *slotInd)
{
Inst inst = pst->dstInst-SCH_INST_START;
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : EVENT_SLOT_IND_TO_SCH\n");
+#endif
+
schProcessSlotInd(slotInd, inst);
return ROK;
uint8_t MacSchRachInd(Pst *pst, RachIndInfo *rachInd)
{
Inst inst = pst->dstInst-SCH_INST_START;
+
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : EVENT_RACH_IND_TO_SCH\n");
+#endif
+
DU_LOG("\nINFO --> SCH : Received Rach indication");
schProcessRachInd(rachInd, inst);
return ROK;
* ****************************************************************/
uint8_t MacSchCrcInd(Pst *pst, CrcIndInfo *crcInd)
{
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : EVENT_CRC_IND_TO_SCH\n");
+#endif
+
switch(crcInd->crcInd[0])
{
case CRC_FAILED:
void schInitTddSlotCfg(SchCellCb *cell, SchCellCfg *schCellCfg)
{
uint16_t periodicityInMicroSec = 0;
- uint32_t slotBitPos, symbBitPos, bitMask;
int8_t slotIdx, symbIdx;
periodicityInMicroSec = schGetPeriodicityInMsec(schCellCfg->tddCfg.tddPeriod);
cell->numSlotsInPeriodicity = (periodicityInMicroSec * pow(2, schCellCfg->numerology))/1000;
-cell->slotFrmtBitMap = 0;
+ cell->slotFrmtBitMap = 0;
cell->symbFrmtBitMap = 0;
- slotBitPos = (cell->numSlotsInPeriodicity*2)-1; /* considering 2 bits to represent a slot */
- symbBitPos = (MAX_SYMB_PER_SLOT*2)-1; /* considering 2 bits to represent a symbol */
for(slotIdx = cell->numSlotsInPeriodicity-1; slotIdx >= 0; slotIdx--)
{
symbIdx = 0;
case DL_SLOT:
{
/*BitMap to be set to 00 */
- bitMask = 1<<slotBitPos;
- cell->slotFrmtBitMap = (cell->slotFrmtBitMap & ~(bitMask)) | ((0<<slotBitPos) & bitMask);
- slotBitPos--;
- bitMask = 1<<slotBitPos;
- cell->slotFrmtBitMap = (cell->slotFrmtBitMap & ~(bitMask)) | ((0<<slotBitPos) & bitMask);
- slotBitPos--;
+ cell->slotFrmtBitMap = (cell->slotFrmtBitMap<<2);
break;
}
case UL_SLOT:
{
/*BitMap to be set to 01 */
- bitMask = 1<<slotBitPos;
- cell->slotFrmtBitMap = (cell->slotFrmtBitMap & ~(bitMask)) | ((0<<slotBitPos) & bitMask);
- slotBitPos--;
- bitMask = 1<<slotBitPos;
- cell->slotFrmtBitMap = (cell->slotFrmtBitMap & ~(bitMask)) | ((1<<slotBitPos) & bitMask);
- slotBitPos--;
+ cell->slotFrmtBitMap = ((cell->slotFrmtBitMap<<2) | (UL_SLOT));
break;
}
default:
continue;
}
/* slot config is flexible. First set slotBitMap to 10 */
- bitMask = 1<<slotBitPos;
- cell->slotFrmtBitMap = (cell->slotFrmtBitMap & ~(bitMask)) | ((1<<slotBitPos) & bitMask);
- slotBitPos--;
- bitMask = 1<<slotBitPos;
- cell->slotFrmtBitMap = (cell->slotFrmtBitMap & ~(bitMask)) | ((0<<slotBitPos) & bitMask);
- slotBitPos--;
+ cell->slotFrmtBitMap = ((cell->slotFrmtBitMap<<2) | (FLEXI_SLOT));
+
/* Now set symbol bitmap */
for(symbIdx = MAX_SYMB_PER_SLOT-1; symbIdx >= 0; symbIdx--)
{
case DL_SLOT:
{
/*symbol BitMap to be set to 00 */
- bitMask = 1<<symbBitPos;
- cell->symbFrmtBitMap = (cell->symbFrmtBitMap & ~(bitMask)) | ((0<<symbBitPos) & bitMask);
- symbBitPos--;
- bitMask = 1<<symbBitPos;
- cell->symbFrmtBitMap = (cell->symbFrmtBitMap & ~(bitMask)) | ((0<<symbBitPos) & bitMask);
- symbBitPos--;
+ cell->symbFrmtBitMap = (cell->symbFrmtBitMap<<2);
break;
}
case UL_SLOT:
{
/*symbol BitMap to be set to 01 */
- bitMask = 1<<symbBitPos;
- cell->symbFrmtBitMap = (cell->symbFrmtBitMap & ~(bitMask)) | ((0<<symbBitPos) & bitMask);
- symbBitPos--;
- bitMask = 1<<symbBitPos;
- cell->symbFrmtBitMap = (cell->symbFrmtBitMap & ~(bitMask)) | ((1<<symbBitPos) & bitMask);
- symbBitPos--;
+ cell->symbFrmtBitMap = ((cell->symbFrmtBitMap<<2) | (UL_SLOT));
break;
}
case FLEXI_SLOT:
{
/*symbol BitMap to be set to 10 */
- bitMask = 1<<symbBitPos;
- cell->symbFrmtBitMap = (cell->symbFrmtBitMap & ~(bitMask)) | ((1<<symbBitPos) & bitMask);
- symbBitPos--;
- bitMask = 1<<symbBitPos;
- cell->symbFrmtBitMap = (cell->symbFrmtBitMap & ~(bitMask)) | ((0<<symbBitPos) & bitMask);
- symbBitPos--;
+ cell->symbFrmtBitMap = ((cell->symbFrmtBitMap<<2) | (FLEXI_SLOT));
break;
}
default:
}
}
}
-
}
#endif
uint8_t mValue = 0;
uint8_t firstSymbol = 0; /* need to calculate using formula mentioned in 38.213 */
uint8_t slotIndex = 0;
- uint8_t FreqDomainResource[6] = {0};
+ /* TODO : This should be filled through freqDomRscAllocType0() */
+ uint8_t FreqDomainResource[6] = {15, 0, 0, 0, 0, 0};
uint16_t tbSize = 0;
uint8_t numPdschSymbols = 11; /* considering pdsch region from symbols 3 to 13 */
uint8_t ssbIdx = 0;
sib1SchCfg->n0 = slotIndex;
/* calculate the PRBs */
- freqDomRscAllocType0(((offsetPointA-offset)/6), (numRbs/6), FreqDomainResource);
+ //freqDomRscAllocType0(((offsetPointA-offset)/6), (numRbs/6), FreqDomainResource);
/* fill BWP */
switch(bandwidth)
pdsch->dmrs.dlDmrsScramblingId = pci;
pdsch->dmrs.scid = 0;
pdsch->dmrs.numDmrsCdmGrpsNoData = 1;
- pdsch->dmrs.dmrsPorts = 0;
+ pdsch->dmrs.dmrsPorts = 0x0001;
pdsch->dmrs.mappingType = DMRS_MAP_TYPE_A; /* Type-A */
pdsch->dmrs.nrOfDmrsSymbols = NUM_DMRS_SYMBOLS;
pdsch->dmrs.dmrsAddPos = DMRS_ADDITIONAL_POS;
SchCellCfgCfm schCellCfgCfm;
Pst rspPst;
Inst inst = pst->dstInst-1;
+ SchPdschConfig pdschCfg;
+
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : EVENT_SCH_CELL_CFG\n");
+#endif
schInitCellCb(inst, schCellCfg);
cellCb = schCb[inst].cells[inst]; //cells is of MAX_CELLS, why inst
schCellCfg->ssbSchCfg.ssbOffsetPointA);
memcpy(&cellCb->cellCfg, schCellCfg, sizeof(SchCellCfg));
+ /* Fill K0 - K1 table for common cfg*/
+ BuildK0K1Table(cellCb, &cellCb->cellCfg.schInitialDlBwp.k0K1InfoTbl, true, cellCb->cellCfg.schInitialDlBwp.pdschCommon,
+ pdschCfg, DEFAULT_UL_ACK_LIST_COUNT, defaultUlAckTbl);
+
+ BuildK2InfoTable(cellCb, cellCb->cellCfg.schInitialUlBwp.puschCommon.timeDomRsrcAllocList,\
+ cellCb->cellCfg.schInitialUlBwp.puschCommon.numTimeDomRsrcAlloc, &cellCb->cellCfg.schInitialUlBwp.k2InfoTbl);
/* Initializing global variables */
cellCb->actvUeBitMap = 0;
cellCb->boIndBitMap = 0;
schCellCfgCfm.rsp = RSP_OK;
ret = (*SchCellCfgCfmOpts[rspPst.selector])(&rspPst, &schCellCfgCfm);
-
return ret;
}
uint8_t lcId = 0;
uint16_t ueIdx = 0;
uint16_t slot;
+#ifdef NR_TDD
+ uint16_t slotIdx = 0;
+#endif
SchUeCb *ueCb = NULLP;
SchCellCb *cell = NULLP;
SchDlSlotInfo *schDlSlotInfo = NULLP;
-
Inst inst = pst->dstInst-SCH_INST_START;
+
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : EVENT_DL_RLC_BO_INFO_TO_SCH\n");
+#endif
+
DU_LOG("\nDEBUG --> SCH : Received RLC BO Status indication");
cell = schCb[inst].cells[inst];
+ if(cell == NULLP)
+ {
+ DU_LOG("\nERROR --> SCH : MacSchDlRlcBoInfo(): Cell does not exists");
+ return RFAILED;
+ }
+
GET_UE_IDX(dlBoInfo->crnti, ueIdx);
ueCb = &cell->ueCb[ueIdx-1];
lcId = dlBoInfo->lcId;
if(lcId == SRB1_LCID || lcId == SRB2_LCID || lcId == SRB3_LCID || \
- (lcId >= MIN_DRB_LCID && lcId <= MAX_DRB_LCID))
+ (lcId >= MIN_DRB_LCID && lcId <= MAX_DRB_LCID))
{
SET_ONE_BIT(ueIdx, cell->boIndBitMap);
ueCb->dlInfo.dlLcCtxt[lcId].bo = dlBoInfo->dataVolume;
}
slot = (cell->slotInfo.slot + SCHED_DELTA + PHY_DELTA_DL + BO_DELTA) % cell->numSlots;
+#ifdef NR_TDD
+ while(schGetSlotSymbFrmt(cell->slotFrmtBitMap, slot) != DL_SLOT)
+ {
+ slot = (slot + 1)%cell->numSlots;
+ slotIdx++;
+ if(slotIdx==cell->numSlots)
+ {
+ DU_LOG("\nERROR --> SCH : No DL Slot available");
+ return RFAILED;
+ }
+ }
+#endif
+
schDlSlotInfo = cell->schDlSlotInfo[slot];
+ if(schDlSlotInfo == NULLP)
+ {
+ DU_LOG("\nERROR --> SCH : MacSchDlRlcBoInfo(): schDlSlotInfo does not exists");
+ return RFAILED;
+ }
SCH_ALLOC(schDlSlotInfo->dlMsgInfo, sizeof(DlMsgInfo));
- if(!schDlSlotInfo->dlMsgInfo)
+ if(schDlSlotInfo->dlMsgInfo == NULLP)
{
DU_LOG("\nERROR --> SCH : Memory allocation failed for dlMsgInfo");
schDlSlotInfo = NULL;
return RFAILED;
}
+
schDlSlotInfo->dlMsgInfo->crnti = dlBoInfo->crnti;
schDlSlotInfo->dlMsgInfo->ndi = 1;
schDlSlotInfo->dlMsgInfo->harqProcNum = 0;
schDlSlotInfo->dlMsgInfo->harqFeedbackInd = 0;
schDlSlotInfo->dlMsgInfo->dciFormatId = 1;
if(lcId == SRB0_LCID)
+ {
schDlSlotInfo->dlMsgInfo->isMsg4Pdu = true;
-
+ schDlSlotInfo->dlMsgInfo->dlMsgPduLen = dlBoInfo->dataVolume;
+ }
return ROK;
}
SchUeCb *ueCb = NULLP;
uint8_t lcgIdx;
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : EVENT_SHORT_BSR\n");
+#endif
+
DU_LOG("\nDEBUG --> SCH : Received BSR");
cellCb = schCb[schInst].cells[schInst];
ueCb = schGetUeCb(cellCb, bsrInd->crnti);
SchUeCb *ueCb;
SchCellCb *cellCb = schCb[inst].cells[inst];
+#ifdef CALL_FLOW_DEBUG_LOG
+ DU_LOG("\nCall Flow: ENTMAC -> ENTSCH : EVENT_UCI_IND_TO_SCH\n");
+#endif
+
DU_LOG("\nDEBUG --> SCH : Received SR");
ueCb = schGetUeCb(cellCb, uciInd->crnti);